| Literature DB >> 27194154 |
Thomas F Budinger1, Mark D Bird2, Lucio Frydman2,3, Joanna R Long4, Thomas H Mareci4, William D Rooney5, Bruce Rosen6, John F Schenck7, Victor D Schepkin2, A Dean Sherry8, Daniel K Sodickson9, Charles S Springer5, Keith R Thulborn10, Kamil Uğurbil11, Lawrence L Wald6.
Abstract
An initiative to design and build magnetic resonance imaging (MRI) and spectroscopy (MRS) instruments at 14 T and beyond to 20 T has been underway since 2012. This initiative has been supported by 22 interested participants from the USA and Europe, of which 15 are authors of this review. Advances in high temperature superconductor materials, advances in cryocooling engineering, prospects for non-persistent mode stable magnets, and experiences gained from large-bore, high-field magnet engineering for the nuclear fusion endeavors support the feasibility of a human brain MRI and MRS system with 1 ppm homogeneity over at least a 16-cm diameter volume and a bore size of 68 cm. Twelve neuroscience opportunities are presented as well as an analysis of the biophysical and physiological effects to be investigated before exposing human subjects to the high fields of 14 T and beyond.Entities:
Keywords: Diffusion tensor imaging; High temperature superconductors; Human brain chemistry; Magnetic field physiologic effects; Magnetic resonance imaging; Parallel transmit and receive strategies; Ultrahigh magnetic fields
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Year: 2016 PMID： 27194154 PMCID： PMC5538368 DOI： 10.1007/s10334-016-0561-4
Source DB: PubMed Journal: MAGMA ISSN： 0968-5243 Impact factor: 2.310